Latest Articles for Atomic Interactions

NMR shifts reveal complex behaviors in cuprates and their electronic properties.

Research sheds light on lithium-7's interactions and the Efimov effect.

Exploring the unique behavior of three-component Bose-Einstein condensates and their wetting properties.

Research reveals new phases in a mixture of Dysprosium and Erbium atoms.

Investigating how initial conditions affect ion-Rydberg atom collisions.

A look into the Rabi problem and its implications in quantum mechanics.

Researchers observe unique state switching in Rydberg gases, revealing new quantum dynamics.

Research reveals how atom interactions shape patterns in molecular Bose-Einstein condensates.

New detectors may enhance our understanding of neutrinos and their interactions.

Research expands on the spin-1 Dicke model and its interaction with light.

Research reveals how interactions affect localization in Bose-Einstein condensates.

Research reveals how atomic arrays emit light under strong illumination.

A look into nuclear DFT and its applications in physics.

Research explores unique arrangements of dipolar atoms in multilayer setups.

Researchers study how atomic groups behave under light influence.

Research explores flat bands and their effects using Rydberg atoms.

Scientists examine how groups of atoms react to laser light to create new light sources.

Research reveals ion cooling dynamics in Bose-Einstein condensates.

Exploring the behavior of electrons in atoms through the Lorentz model.

A look into how three particles interact in quantum mechanics.

Exploring the role of machine learning in predicting material behaviors and challenges faced.

Research reveals unique behaviors of Rydberg atoms in integrable models under constraints.

Exploring giant atoms' emission dynamics and their potential in quantum technologies.

Research on energy dynamics reveals chaos in quantum atom-photon systems.

Research reveals trimers' behavior influenced by magnetic fields and thermal gas density.

Researchers achieve control over ion-atom interactions beyond ultracold temperatures.

Study reveals how the Lamb shift affects heat flow in coupled quantum systems.

Researchers use light to manipulate ultracold atoms for advanced material simulations.

Research reveals insights into charged Rubidium ions and their interactions at low temperatures.

COLOSS simplifies nuclear scattering research through advanced computational techniques.

Analyzing how perturbations affect collective light emission in quantum systems.

Scientists study unique atomic groups called trimers and their interactions at low temperatures.

This article examines how groups of atoms emit light together, changing its behavior.

A new method to control how atoms emit light using optical vortices.

Investigating how hydrogen atoms lose energy when interacting with metal surfaces.

Researchers utilize M3GNet for efficient predictions in material behavior.

Discover how quantum droplets form and behave under unique conditions.

Research highlights the role of incomplete fusion in nuclear reactions involving carbon and iridium.

Studying how atoms react to light within fullerene structures.

Scientists study quantum droplets in potassium-rubidium mixtures, revealing unique behaviors and properties.